TW201428778A - Possible strain relief for a cable - Google Patents

Abstract

A possible strain relief for use with a cable which can be bent into a particular shape by the user, and which retains that shape, thus allowing modification to suit a specific environment or use.

Description

Suitable strain relief device for cable

The invention of the present invention focuses on the construction of a conductive cable. The present invention relates to a flexible cable having a strain relief device that can be bent into a particular shape by a user and that maintains the shape. This allows the user to change the integrated strain relief device to suit a particular environment or use.

Electronic products have been shrinking since their inception. As the price, size, weight, and power consumption decrease, the fit and portability increase. "Personalized" electronic products are becoming more and more popular. The size of the Solid-state music player is only slightly larger than a pack of chewing gum, but it can store hundreds of songs, even thousands of songs that can be accessed immediately. Handheld computing devices, such as mobile phones, today have the ability to capture, edit, and distribute a variety of digital media. Complex film productions may now be made on these devices, where the size of these devices is approximately the size of a deck of cards.

With the increase in portability, the environmental diversity and severity of these devices in use are also increasing, and the demand for devices and accessories that can accept more demanding environments is also rising. . Sportswear includes more and more pocket designs designed to conveniently accommodate personal electronic products. More products promote resistance to temperature changes, humidity, shock or liquid immersion.

Although the trend of wireless electronic components continues to develop, the cable continues to be effective. And the necessary use. Numerous examples, such as plug-in audio and dynamic image transmission fidelity, are still far superior to their peer-to-peer wireless transmission. Small-size wireless transmission capabilities are still insufficient at effective distances and are impractical in some circumstances. Cable-based digital data transmission continues to exceed the efficiency and capabilities of portable wireless methods. However, cable design and versatility have not kept pace with the environmental diversity in which these cables are being used.

The existing cable connector and strain relief device design is roughly one Fixed or rigid shapes that cannot be manipulated without undue elimination or negative impact on these designs designed to provide protection. Attempting to deform will result in one of three conditions: damage to the cable component, damage to the device to which the cable is attached, or both devices that damage the cable component and its attachment. The same application situation may require different shapes in different environments. For example, when a wired headset set is connected to a mobile phone, it may benefit from being bent near one of the devices. This bend minimizes the protrusion when stored in a person's pocket, but may be close to the device. Wherever a relatively straight path is required to avoid collision with the mounting bracket in a personal vehicle. Sports enthusiasts may wear a variety of devices in different parts of their body. A fixed form of cable may locate the cable in an unpleasant position and interfere with motion, causing distractions or scratches.

If it appears very close to the device, excessive bending is often the most convenient Typically (and disappointingly) is occupied by the design of a rigid connector in a very limited space. Some "low profile" cable connectors are designed to have a fixed angle (which is most common in right angles), but their fixed angle designs are still rigid and incapable of adapting to changing environments. Users may need, for example, close to one in an environment The oblique bending of the device, an acute angle bend in a second application, no bending in a third application, and multiple bending in a fourth application. Today's users are faced with the choice of two, one to buy several cables (if they can find the shape they need), or the second to try to twist a cable in vain It makes it a shape that the cable is intended to use, and therefore risks the risk of premature failure, injury, and loss of investment. A cable that can be adapted to fit any device that is close to the device.

The present invention relates to a configable strain relief device in which the term "posable" can be defined as being plastically deformed or having a position or form that is maintained once bent. Live until the bend occurs again.

In one embodiment, the adaptable strain relief device includes a housing and one or more integrated, configurable inserts. The outer cover is constructed via a relatively flexible material and the configurable insert is partially or completely (either of the two) embedded in the outer cover material. The adaptable strain relief device has a pocket that allows one or more elongated items (e.g., cables) to pass completely through the adaptable strain relief device. The adaptable strain relief device can be secured to the elongate article by a means to avoid a change in the relative longitudinal position of the compliant strain relief device from the elongate article.

The outer cover is generally prone to elastic (non-permanent) deformation, while the conformable insert is generally prone to plastic (permanent) deformation. The configurable insert is relatively rigid compared to the flexible outer cover and exhibits plastic deformation under a critical force which is higher than the force under normal use, but The threshold force is low enough to require only the minimum force of the user's personal hand. The configurable insert can be constructed to facilitate a flat The deformation on the surface.

In another embodiment, the adaptable strain relief device can be fixed to one Cable connector. The cable connector includes one or more signal conductors and the signal conductor has one or more pin outputs. In accordance with this embodiment, the adaptive strain relief device typically surrounds the pin output and surrounds a portion of the signal conductor.

In a further embodiment, the cable connector can be fixed to one or It is a plurality of flexible cables having one or a plurality of conductive leads. In this embodiment, the flexible cable typically resides in the pocket. The conductive lead is connected to the signal connector on the pin output. The adaptable strain relief device typically surrounds the pin output and surrounds a portion of the signal conductor. The configurable insert is typically oriented substantially parallel to a portion of the flexible cable. Both the flexible cable and the signal conductor are typically protruded by the adaptable strain relief device. Advantageously, the adaptable strain relief device can be formed to avoid the conformable insert contact portion or all of the conductive leads, signal conductors, or pin outputs.

In a further embodiment, a second flexible material includes an inner mold, The inner membrane replaces a portion of the volume inside the outer cover. In this embodiment, the outer cover typically completely surrounds the inner mold.

For the remainder, the flexible material in each embodiment tends to conform The shape of the insert can be adapted. This configuration allows the user to easily change the shape of the adaptable strain relief device to match the needs of the user. The adaptable strain relief device maintains this shape without additional application of force by the user. The relative rigidity of the compliant insert also releases strain on a more flexible material, and this more flexible material is another In terms of terms, it will be more frequently deformed under active conditions of use.

A particular advantage of one of the present invention is that by virtue of the configuration of the present invention, it can be bent many times in different directions without causing signal loss or degradation of the signal over time. This further allows the user to reliably set the path of a flexible cable in any direction or angle, thereby enabling improved ergonomics and usability in different environments.

Figure 1 shows a cross-sectional view of an integrated adaptable strain relief device and cable connector.

2A and 2B show the exterior of the adaptable strain relief device of Fig. 1 from different angles.

3A and 3B illustrate another embodiment of an integrated adaptable strain relief device and a cable connector and a rigid outer cover.

4 and 5 illustrate another embodiment of the integrated strain relief device and a cable connector integrated

The preferred embodiments are described below, however, the embodiments of the present invention are not limited to these embodiments. Therefore, the contents described below are intended to be illustrative, and are not intended to be limiting. Other systems, methods, features, and advantages will be or will become apparent to those skilled in the <RTIgt; All of the additional systems, methods, features, and advantages described are summarized in the description of the present invention, in the scope of the subject matter of the present disclosure, and are protected in the accompanying drawings.

Figure 1 shows a cross-sectional view and illustrates an embodiment, which is packaged A suitable strain relief device 22, a cable connector 30, and a flexible cable 28 are included. The adaptable strain relief device 22 includes a housing 20, a pocket 40, and one or more conformable inserts 24. The compliant insert 24 is typically partially or completely embedded in the outer cover 20, or enclosed in the outer cover 20, and typically extends in a direction substantially parallel to the recess 40.

The configurable insert 24 can be rectangular, thereby allowing for compliance along the fit The deformation of the shortest axial direction of the insert 24 is easier than other axial systems. As depicted, this will aid in the deformation of the plane of the section (or the paper surface as shown). When more than one configurable insert 24 is present, these more than one configurable inserts 24 are typically similar in shape and material and parallel to each other. Different combinations of materials, shapes and orientations can be combined to achieve the desired deformation characteristics.

The cable connector 30 typically includes one or more signal conductors 42 (eg, a TS-type, TRS-type, or TRRS-type connector as depicted) is coupled to one or more of the pin outputs 32. The flexible cable 28 includes one or more conductive leads 34 that may be partially or completely enclosed by an insulative jacket 36. The conductive lead 34 is connected to the cable connector 30 at the gusset output. Where a cable connector 30 or flexible cable 28 is present, the adaptable strain relief device 22 is typically constructed to surround the pin output 32 in use. In this case, the adaptable strain relief device 22 is also typically constructed to enclose a portion of the cable 28 and surround a portion of the cable connector 30.

In the embodiment depicted in the figures, the adaptable strain relief device 22 Further included an inner mold 26. The inner mold 26 is typically surrounded by the flexible outer cover and may be partially surrounded by the adaptable insert 24.

Material selection for various components of the plug:

The outer cover 20 and the inner mold 26 are typically constructed of plastic. For example, the plastic may comprise polyvinyl chloride (PVC) and thermoplastic elastomer (TPE), as is typically used for the outer cover 20, or the plastic may comprise low density polyethylene (LDPE) and polypropylene (PP), as A material typically used for the inner mold 26. The configurable insert 24 is typically constructed of metal. For example, the metal can comprise stainless steel, sheet metal, and copper.

2A and 2B illustrate the situation at the different angles of the exterior of the integrated, adaptable strain relief device 22 depicted in FIG. From the outside, the outer cover 20 of the adaptable strain relief device 22, the signal conductor 42 of the cable connector 30, and the insulative jacket 36 of the flexible cable 28 are visible.

3A and 3B illustrate another embodiment of the present invention, including a suitably strain relief device 22, a flexible cable 28, and a cable connector 30 having a rigid outer cover 38. The cable connector 30, the flexible cable 28, and the adaptable strain relief device 38 are protruded from the rigid outer cover 38. In this embodiment, the adaptive strain relief device 22 may or may not surround the pin output 32 (not shown), and the pin output 32 may reside within the rigid outer cover 38. The flexible cable 28 includes an insulative jacket 36 and a plurality of conductive leads 34. The flexible cable traverses the pocket 40 through the adaptable strain relief device 22.

4 and 5 illustrate another embodiment of the present invention, which includes a suitable strain relief device 22, a flexible cable 28, and a cable connector 30, a housing 20, a recess 40, And one or more adaptable inserts 24. In this embodiment, the configurable insert 24 is a columnar wire mesh that is substantially surrounded by a shrink tube 44 and that is completely embedded or embedded in the outer cover 20, and Typically substantially parallel to the pocket 40 extended. The flexible cable 28 includes an insulative jacket 36 and a plurality of conductive leads 34 (not shown). The flexible cable 28 passes through the pocket 40 of the adaptable strain relief device 22.

Claims (21)

A strain relief device for releasing strain on a cable, comprising: a. a flexible outer cover having a recess along a longitudinal axis of the outer cover; b. at least one adjustable (posable) an insert that is adapted to: i. is disposed substantially parallel to the pocket but external to the pocket; and ii. is substantially surrounded by the flexible outer cover. The strain relief device of claim 1, wherein the shape of the posable insert is a rectangular extruded member having a cross-sectional shape. The strain relief device of claim 1, wherein the shape of the posable insert is one of an elliptical shape in cross-sectional shape. The strain relief device of claim 1, wherein the posable insert is tubular in shape, and wherein the posable insert substantially surrounds the pocket. The strain relief device of claim 1, further comprising a shrink tube that substantially encloses the posable insert. The strain relief device of claim 1, wherein the posable insert is deformable in more than one plane, and the configurable insert is on a plane than in other planes It is easier to deform on the top. The strain relief device of claim 6, wherein the shape of the posable insert is a rectangular plate member, and the shape is adapted to be along the posable insert member. Deformation in the shortest axis direction. The strain relief device of claim 6, wherein the outer mold is deformable in more than one plane, the outer mold being more deformable in a plane than the other planes. The strain relief device of claim 1, wherein the posable insert comprises a metal or an alloy. The strain relief device of claim 9, wherein the metal is selected from the group consisting of: stainless steel, sheet metal, and copper. The strain relief device of claim 9, wherein the posable insert comprises a wire mesh. The strain relief device of claim 1, wherein the flexible outer cover comprises plastic. The strain relief device of claim 12, wherein the plastic is selected from the group consisting of polyvinyl chloride (PVC) and thermoplastic elastomer (TPE). The strain relief device of claim 1, further comprising an inner mold substantially surrounded by the flexible outer cover. The strain relief device of claim 14, wherein the inner mold substantially encloses a portion of the posable insert. The strain relief device of claim 14, wherein the inner mold comprises plastic. The strain relief device of claim 16, wherein the plastic is selected from the group consisting of low density polyethylene (LDPE) and polypropylene (PP). The strain relief device of claim 1, further comprising at least one cable connector, the cable connector comprising: a. at least one signal conductor, the signal conductor being connected to b. at least one pin output; wherein the strain relief device is constructed such that the strain relief device is attached to the cable connector during use. The strain relief device of claim 1, further comprising at least one flexible cable having at least one conductive lead; wherein the strain relief device is constructed such that the strain relief during use The device substantially encloses a portion of the flexible cable. The strain relief device of claim 19, further comprising at least one cable connector, the cable connector comprising: a. at least one signal conductor, the signal conductor being connected to b. at least one pin output Wherein the strain relief device is attached to the cable connector and the conductive lead is connected to the signal conductor at the pin output. The strain relief device of claim 20, wherein the outer cover substantially surrounds the pin output and a portion of the cable connector.